Courses from 1000+ universities
Buried in Coursera’s 300-page prospectus: two failed merger attempts, competing bidders, a rogue shareholder, and a combined market cap that shrank from $3.8 billion to $1.7 billion.
600 Free Google Certifications
Greening the Economy: Sustainable Cities
Introduction to Graphic Illustration
Computational Social Science Methods
Organize and share your learning with Class Central Lists.
View our Lists Showcase
Explore challenges and opportunities in simulating binary neutron star collisions, focusing on realistic models, electromagnetic counterparts, and remnant properties using open-source codes and parametrized equations of state.
Explore accretion dynamics and outflows in merging black hole binaries, covering simulations, evolution, and multimessenger astronomy implications.
Explore numerical relativity's role in gravitational wave astronomy, its impact on understanding gravity, and future challenges as detectors improve. Insights into computational and data hurdles in this evolving field.
Explore computational challenges in modeling core collapse supernovae and gravitational wave emission, covering recent progress, physics requirements, and future directions in multi-dimensional simulations.
Explore neutron star mergers, their multimessenger emissions, and implications for astrophysics. Gain insights into recent simulations, future challenges, and prospects in this cutting-edge field.
Explore gravitational wave modeling techniques for compact binary systems, covering inspiral, merger, and ringdown phases. Learn about semi-analytic models crucial for detection and analysis.
Explore inverse problems in spacetime structure, light observation sets, and cosmic microwave background, delving into mathematical challenges in gravitational wave astronomy.
Explore advanced concepts in numerical relativity, including 3+1 spacetime decomposition, Einstein's equations, and stable simulation techniques for gravitational wave research.
Explore the foundations of numerical relativity, including spacetime decomposition, Einstein's equations, and coordinate choices for stable simulations in gravitational wave astronomy.
Explore techniques for distinguishing gravitational wave signals from noise in detector data, including traditional methods and innovative approaches to improve data quality and reduce search backgrounds.
Explore quantum field theory of exotic systems, focusing on fracton phases and their challenges to conventional understanding. Delve into subsystem symmetries, tensor gauge theories, and peculiar UV/IR mixing phenomena.
Explore topological defect networks in fracton models, covering fundamental concepts, excitations, and their implications in topological phases of matter.
Explore the intersection of error correcting codes and manifold construction, delving into quantum error correction, topology, and complex mathematical concepts.
Explore lattice topological phases with Fiona Burnell, covering lattice Hamiltonians, vector spaces, local rules, and gauge choices in this comprehensive lecture on advanced quantum physics concepts.
Explore opinion dynamics on networks, including threshold models, voter models, and bounded-confidence models. Discover how network structure influences social contagions and opinion polarization.
Get personalized course recommendations, track subjects and courses with reminders, and more.